Legrand Solutions for Energy Efficiency in Buildings by MicroGraphix Design Services Ltd.

SOLUTIONS

FOR ENERGY EFFICIENCY IN BUILDINGS

THE GLOBAL SPECIALIST IN ELECTRICAL AND DIGITAL BUILDING INFRASTRUCTURES

Legrand – a capable and reliable supply partner that: • delivers innovation • offers market leading low carbon solutions • delivers very high standards of corporate responsibility Working together we can create solutions that produce less carbon and reduce the impact on the environment.

As a leading specialist in electrical and digital infrastructures for buildings, Legrand is committed to ensuring that everyone can use electricity in a sustainable way.

2. LEGISLATION AND STANDARDISATION

Contents 1 The Legrand Group page 4-13

2 Legislation and standardisation page 14-19

3 Energy eficiency demonstration tool page 20-21

4 Product overview page 22-71

5 Application examples page 72-87

6 Reference projects page 88-91

1 The Legrand Group

■ Legrand, a global player ■ Legrand energy eficiency strategy ■ Our business ■ General product overview

1. LEGRAND GROUP

Legrand, a global player Legrand is the global specialist in electrical and digital building infrastructures. The Group offers a comprehensive range of solutions and services tailored to residential, commercial and industrial markets. The scope of its offering and its leading positions make Legrand a worldwide benchmark.

3 MARKETS

Residential

Commercial

Industrial

AN ACTIVE INTERNATIONAL PRESENCE

ESTABLISHED IN NEARLY 90 COUNTRIES

CONTINUOUS INNOVATION

4% TO 5% OF SALES DEDICATED TO R&D EVERY YEAR

OVER 37,000 EMPLOYEES IN 2017 SALES IN NEARLY 180 COUNTRIES

LEADING POSITIONS of sales are from products that rank irst or second in their respective markets (2014).

68%

World leader in the interface for control and connection, and in cable management products.

3 key business areas

EFFICIENT ENERGY DISTRIBUTION

ENERGY EFFICIENT DATA CENTRE

ACTIVE ENERGY MANAGEMENT 1. LEGRAND GROUP

APPLICA TION S

Free cooling

Home automation

Renewable energies

Monitoring and reporting

Digital lighting management

Legrand Energy Eficiency Strategy Answering to our customersâ&#x20AC;&#x2122; needs in terms of comfort, security and productivity while using less energy.

Measurement and supervision

Eficient energy distribution

Guest room management

HVAC / Heating control

LS Industry

CL I

VER TIC A

Hotels

N E

S T

Speciiers

Education

Warehouses

Commercial stores

System integrators

Electrical contractors

Data centres Facility managers

Residential Investors

Hospitals

Ofices

Our business... From control and connection interfaces to cable management, energy distribution and voice-data-image (VDI) distribution systems, Legrand provides a host of solutions designed to manage lighting, energy, networks and building access.

A PORTFOLIO OF FLAGSHIP BRANDS Legrand • Bticino • Electrak • Cabloil • C2G • NUVO • Swifts • Salamandre • Minkels • Qmotion • Ortronics • Raritan • Vantage • Zucchini and more

A WIDE CHOICE BY ANY MEASURE

SEVERAL HUNDRED THOUSAND CATALOGUE ITEMS MORE THAN 90 PRODUCT FAMILIES

The Legrand Group has more than 50 BRANDS

Legrand and sustainable

development

The Legrand Group, with its customers and partners, has been committed for many years to developing a continuous improvement process and guaranteeing the responsible, proitable and long-term growth of its business. For this reason the Group intends to provide a response to the environmental, economic and social problems of the present and the future.

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A global approach for sustainable development

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In producing its products the Legrand Group systematically looks for technical solutions that can replace the use of dangerous products.

Legrand's approach to sustainable development is oriented towards three areas: social responsibility, the environment and governance. ■

Reduction of the environmental impact of the Group sites Since 1996 Legrand has integrated environmental protection and management in the operations by which it manages its industrial sites.

Control of the use of chemical substances

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Ecological products Legrand puts an eco-design approach into effect to limit the global impact which products have on the environment during their life cycle.

CORPORATE SOCIAL RESPONSIBILITY CORPORATE SOCIAL Voluntary initiatives, such as signing the Global Compact or EMPLOYEES RESPONSIBILITY - Respect human rights

respecting the rigid social and environmental -criteria laid down Guarantee health and safety at work Develop skills and promote diversity Legrand’s CSRFTSE4Good roadmap isand a natural extension by the DJSI Indices, form part of a general to the governance sustainable development policy aimedand at transparency, to highlight Legrand's concrete approach in which thetocompany has been commitment the Company Social Responsibility framework. engaged for many years. The CSR roadmap irmly asserts Legrand’s ongoing commitment SOCIETY - Act ethically to sustainable development. - Ensure responsible purchasing - Enable access to electricity for all

ENVIRONMENT

CSR

- Reduce the Group’s environmental footprint - Innovate for a circular economy

USERS - Provide sustainable solutions - Play a driving role in the electrical sector

1. LEGRAND GROUP

General product overview

EFFICIENT ENERGY DISTRIBUTION

Green transformer

Cold corridor

page 25

page 37

High eficiency busbar page 28

Power quality and power factor correction page 29

UPS page 34

EFFICENT ENERGY DATA CENTRE

Air conditioning page 43

Metering with smart PDU page 46

ACTIVE ENERGY MANAGEMENT

Energy management: measure, report, status, command and display data on site or remotely page 53

Measure of the energy integrated to power devices or with measuring central units

Lighting management distribution and lighting controls page 56

HVAC control page 69

page 54

Time switches page 71

1. LEGRAND GROUP

2 Legislation and standardisation ■ The view of the European Union ■ Legislation ■ Standardisation ■ Classiication schemes

2. LEGISLATION AND STANDARDISATION

Energy eficiency

The view of the EU The energy strategy ixed by the EU to be reached by the year 2020 is based on:

-20% ENERGY CONSUMPTION

For further details, visit the EU webpage on the 2020 energy strategy:

>20% RENEWABLE SOURCES

The EU creates a legislative framework based on this principle.

-20% GREENHOUSE EMISSIONS

http://ec.europa.eu/energy/en/topics/ energy-strategy/2020-energy-strategy

Energy eficiency

Legislation

The basic implementation tools for the EU energy strategies are the Directives. ■ ■ ■

Energy Eficiency (EE) Directive Energy Performances of Building Directive (EPBD) Ecodesign Directive

All EU countries will align their legislation to fundamental directives. The EU directives are under constant revision. See the latest at: http://ec.europa.eu/energy/en As a consequence of the Directives, speciic regulations have been published and technical standardisation mandates have been submitted to European Standard Organisations (CEN, Cenelec and ETSI) in order to ix energy eficiency requirements in all the relevant areas. This includes transport systems, urban planning and the tools to verify compliance. Financial support to implement energy eficiency measures are under constant development in each country. For the latest legislation updates, please consult the appropriate web pages: ■

EE Directive national action plans: http://ec.europa.eu/energy/en/topics/energy-eficiency/energy-eficiency-directive/nationalenergy-eficiency-action-plans

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EPBD Directive implementing measures: http://ec.europa.eu/energy/en/topics/energy-eficiency/buildings

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Ecodesign Directive related regulations: http://ec.europa.eu/growth/industry/sustainability/ecodesign/index_en.htm

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UK national energy eficiency action plan: http://ec.europa.eu/energy/sites/ener/iles/documents/2014_neeap_united-kingdom.pdf

2. LEGISLATION AND STANDARDISATION

Energy eficiency

Standardisation Energy eficiency impact standardisation of electrical installations and equipment:

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IEC 60364-8-1

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Low voltage electrical installations Part 8-1: Energy eficiency ■

Energy performance of buildings /energy requirements for lighting Part 1: Speciications

EN 15232 Energy performance of buildings Part 1: Impact of building automation, controls and building management

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Future EN 15193-1

IEC 60947-1 Low voltage switchgear and controlgear Part 1: General rules / Annex V / Power management with switchgear and controlgear for energy eficiency

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Standard IEC 60076-20 Energy eficiency practices for power transformers. Refer more speciically to standards EN 60076-1 to 60776-5, EN 60076-11 version 2004 and EN 50588-1 (for dry-type power transformers)

A number of standardisation projects are underway in order to cover more and more electrical equipment with speciic energy eficiency requirements. These projects include: ■ LSE Load Shedding Equipment ■ SSE Source Switching Equipment ■ Pro-sumers (Producers – Consumers) low voltage electrical installations.

Energy performance

Classiication schemes A number of energy performance classiication schemes for buildings have been created. This approach helps to identify the environmental sustainability of buildings. Sustainability includes energy eficiency.

The most popular schemes are:

The building classiication schemes have a comprehensive approach which covers: ■ ■ ■ ■ ■ ■ ■

LEED Leadership in Environmental and Energy Design www.usgbc.org/leed

BREEAM Building Research Establishment Environmental Assessment Method www.breeam.com

■ ■

Location and transportation Sustainable site Water eficiency Energy and atmosphere Material choice Environmental quality Innovation Regional priorities Wastes

Energy is a fundamental part of the building classiication scheme and it is highly affected by the installation design and the equipment choice.

3 Energy eficiency demonstration tool Information about the demonstration tool FEATURES & BENEFITS The EE Demonstrator is a tool that estimates the energy saving potential for all Legrand energy eficiency solutions. Calculations are based on requirements speciied in standards. For each solution: ■

■ ■

■

it determines the energy saving level in local currency and kWh it estimates the simple payback it calculates the project economic data (NPV, IRR and Savings on TCO) it gives the scoring for Environmental Rating Systems (LEED, BREEAM)

Contact us to request a demonstration of how we can help you to save energy or to discover more about the actions and tools Legrand uses to deliver a more sustainable future for all its partners: legrand.co.uk/products/energy-eficiency 3. ENERGY EFFICIENCY DEMONSTRATION TOOL

4 Product overview ■ Eficient energy distribution ■ Eficient energy data centre ■ Active energy management

4. PRODUCT OVERVIEW

Eficient energy distribution

Green transformer page 25

High eficiency busbar page 28

Power quality and power factor correction page 29

UPS page 34

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Eficient energy distribution

Green T.HE cast resin transformers After the new European Commission regulation (548/2014) came into force in July 2015, the eficiency standards required for transformers have become stricter. This means guaranteeing a considerable reduction in energy consumption, favouring a considerable cost saving and reducing CO2 emissions to the atmosphere. Legrand Green T.HE transformers, complying to standard EN 50588-1, are designed and manufactured in conformity with European Community regulation 548/2014, laying down the modes of application of the Directive on ecocompatible design 2009/125/CE.

REFERENCE STANDARDS Standard EN 50588-1 applies to three-phase transformers between 5 kVA and 40 MVA supplied with a frequency of 50 HZ and with maximum voltage per component (Um) greater than 1.1 kV but not greater than 36 kV.

Regulation 584/2014 sets out the obligatory requirements in the countries of the EU (28 nations) for the ecocompatible design of electric transformers with power greater than 1 kVA, used in electrical energy transmission and distribution networks.

4. PRODUCT OVERVIEW

CLASSIFICATION A cast resin transformer (CRT) is classiied on the basis of the value of the characteristic no-load (Po) and load (Pk) losses of the machine itself. More precisely, P0 losses are independent of the loads and remain constant for the whole time the transformer is connected to the electrical mains. Pk losses on the other hand only occur when a load is connected to the transformer and vary quadratically with the load itself.

NO-LOAD LOSSES (PO)

LOAD LOSSES (PK)

ECOCOMPATIBLE DESIGN REQUIREMENTS OF NEW REGULATION 548/2014

PHASE 1 (FROM THE 1st JULY 2015)

PHASE 2 (FROM THE 1st JULY 2021)

Rated power (kVA)

Maximum load losses Pk (W)

Maximum no-load losses Po (W)

Maximum load losses Pk (W)

Maximum no-load losses Po (W)

≤ 50

Bk (1700)

A0 (200)

Ak (1500)

A0 -10% (180)

100

Bk (2050)

A0 (280)

Ak (1800)

A0 -10% (252)

160

Bk (2900)

A0 (400)

Ak (2600)

A0 -10% (360)

250

Bk (3800)

A0 (520)

Ak (3400)

A0 -10% (448)

400

Bk (5500)

A0 (750)

Ak (4500)

A0 -10% (675)

630

Bk (7600)

A0 (1100)

Ak (7100)

A0 -10% (990)

800

Ak (8000)

A0 (1300)

Ak (8000)

A0 -10% (1170)

1000

Ak (9000)

A0 (1550)

Ak (9000)

A0 -10% (1395)

1250

Ak (11000)

A0 (1800)

Ak (11000)

A0 -10% (1620)

1600

Ak (13000)

A0 (2200)

Ak (13000)

A0 -10% (1980)

2000

Ak (16000)

A0 (2600)

Ak (16000)

A0 -10% (2340)

2500

Ak (19000)

A0 (3100)

Ak (19000)

A0 -10% (2790)

3150

Ak (22000)

A0 (3800)

Ak (22000)

A0 -10% (3420)

Requirements applicable (loss values) to medium-sized three-phase transformers with rated power ≤ 3150 kVA dry type, with one winding with Um ≤ 24 kV and the other with Um ≤ 1.1 kV

The purchase price of a transformer represents only a marginal part of the total cost of ownership (TCO), while the operating cost (linked mainly to the losses) represents more than 80% of the total cost. Purchasing a transformer designed according to ecocompatible rules means gaining both a cost and an environmental advantage.

To summarise:

Total cost of the CRT

Purchase cost (20% effect)

Operating cost (80% effect)

EXAMPLE OF A COST CALCULATION OBTAINED USING A HIGH-EFFICIENCY GREEN TRANSFORMER

EUROPE

Class AA transformer

Class A3A (Tier 2) Green T.HE

Purchase price

14,000 GBP

18,500 GBP

UK: 6%

Operating cost (20 years)

50,971 GBP

37,923 GBP

Transformer lifetime: 20 years

TOTAL Cost

64,971 GBP

56,423 GBP

In this example, the extra 4,500 GBP required for the purchase of the Green T.HE transformer is recovered in less than six years, while the total saving for the 20-year period will be approximately 8,500 GBP.

FINANCIAL SAVING 8,548 GBP

Rated power (SR): 1000 kVA Primary no-load voltage (V10): 11 kV Secondary no-load voltage (V20): 417 V

SAVING IN TERMS OF CO2 EMISSIONS 112 Ton CO2

Note: the cost saving has been calculated taking the electricity tariffs shown on the site as reference EUROSTAT EU-28: cost of the electricity 0.1170 â&#x201A;Ź/kWh. Equivalent 0.5778 kgCO2/kWh.(1)

Class N transformer Old CRT with higher loss levels. Green T.HE transformers New transformers with low loss levels, conforming to new regulation 548/2014.

(1) Figures are for illustrative purposes only

4. PRODUCT OVERVIEW

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Eficient energy distribution

High eficiency busbar Busbar is the most eficient, adaptable solution for distributing medium to large power, supplying light ittings in warehouses, ofices and any space where speed and compactness of installation offers tangible beneits. Busbar is also frequently used to supply the backbone (horizontal and vertical) of service-sector buildings favouring respect of installation times and offering a inal solution with many technical advantages. Zucchini busbar is available in three distinct current ranges • Low Power 25A-63A • Medium Power 63A-1000A • High Power 630A-6300A and can satisfy any installation requirement from 25 A to 6300 A.

REFERENCE STANDARD BS EN 61439-6 Low voltage switchgear and controlgear assemblies Part 6: Busbar trunking systems (Busways) - came into force deinitively on 27th June 2015 This Standard gives the deinitions and establishes the operating conditions, manufacturing provisions, technical features and check provisions for busbar systems with rated voltage not greater than 1000 V a.c. or 1500 V d.c., intended for use in the ield of the generation, transmission, distribution and conversion of electricity, and the command and control of equipment using electricity.

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Eficient energy distribution

Power Quality WHY IS THERE A NEED FOR GOOD ENERGY QUALITY? Just for the industrial sector, the cost of poor energy quality in the EU-25 amounts to 150 billion GBP per year

A GOOD QUALITY OF ENERGY: Increases the availability of power ■

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Take care of needs arising from network blackouts and compensate for damaging voltage drops in the industrial and service sectors Optimise the sizing of your system

Reduces maintenance costs for your electrical system ■

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Manage harmonics to avoid premature ageing of equipment and the destruction of sensitive components Reduce transformer noise and overheating

Improves the energy performance of the building ■

Optimise energy consumption reducing electricity bills, energy losses and CO2 emissions

4. PRODUCT OVERVIEW

Examples of equipment/devices to be used in relation to phenomena on the electricity network

OVERVOLTAGE ≥ ± 10% VOLTAGE DROP ≥ ± 10%

INTERRUPTION

VOLTAGE

FLICKERS

NOISE TRANSIENT OVERVOLTAGES

HARMONICS (1)

CURRENT

POWER FACTOR

IMBALANCES

(1) HARMONIC IMPACT ■

■ ■ ■ ■ ■

Premature ageing or destruction of capacitors In the case of a network strongly contaminated by harmonics, the installation of a Self Anti-Harmonics (SAH), supplied in series with the capacitor, is the only effective protection Power factor reduction Phenomenon of electrical resonance Equipment overheating (motors, transformers) Untimely triggering of the protection circuit breakers Interference of electronic instruments (computer, PLC, etc.)

Eficient energy distribution

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Power factor correction An alternating current electrical system, including loads such as transformers, motors, luorescent tube ballasts or any other load whose intensity is out of phase with respect to the voltage, consumes reactive energy. Energy suppliers can bill this reactive energy (expressed in kilovar/hour – kVArh) at the same rate as active energy. Reactive power thus leads to a greater consumption of power and an increased electricity bill.

POWER FACTOR By deinition the power factor of an electrical system (PF) is equal to the ratio of the active power P (kW) ÷ apparent power S (kVA). Active Power P (kW)

Power Factor = (PF)

Apparent Power S (kVA)

A power factor of 1 does not consume any reactive energy. Energy meters record the consumptions of active and reactive energy. Normally electricity suppliers use the term tg φ in their bill.

A good power factor is: ■ cos φ high (near 1) ■ or tg φ low (near 0) Cos φ and tg φ are joined by the following relation: 1 Cos φ = 1+ (tg φ)²

RELATIONS

POWER DIAGRAM P

ø2 ø1

Q2 = Q1 - Qc Qc = Q1 - Q2 Qc = P.tg φ 1 - P.tg φ 2

Qc = P(tg φ 1 - tg φ 2) S1

P: active power S1 and S2: apparent powers Qc: reactive power of the capacitor Q1: reactive power without capacitor Q2: reactive power with capacitor

Qc Q1

φ1 phase displacement without capacitor φ2 phase displacement with capacitor

4. PRODUCT OVERVIEW

ADVANTAGES By supplying reactive energy on demand, Alpes Technologies capacitor banks offer the user the following advantages:

1) Increase of the power available in the power transformers EXAMPLE For a 1000 kVA transformer with cos φ = 0.75 and a 750 kW installation: by improving the cos φ to 0.96 an extra 210 kW (+28%) may be gained.

Power factor level cos φ

2) Limitation of the energy losses in the conductors due to the Joule effect considering the reduction of the power transported in the installation (limitation of the voltage drops). EXAMPLE For a 1000 kVA transformer with cos φ = 0.75 and a 750 kW installation: by improving the cos φ to 0.96 a current reduction of about 22% is obtained.

Extra power available in the transformer

0.8

+7%

3) Energy saving, whatever the type of electricity supplier contract

0.85

+13%

The installation of a capacitor bank means:

0.9

+20%

■

0.96

+28%

+33%

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obtaining energy savings avoiding any potential penalties applied by the electricity supplier reduction in electrical supply costs

OPERATING PRINCIPLE Capacitor banks can improve the power factor of an electrical system, supplying it with part of the reactive energy it consumes. The capacitor is made up of two conducting parts (electrodes) separated by insulation. It has the ability, when it is subjected to a sinusoidal voltage, to dephase its load, thus its power (reactive capacitive), by 90° forwards with respect to the voltage. On the other hand, all other loads (motor, transformer, etc.) dephase their reactive component (load or reactive inductive power) by 90° backwards with respect to the voltage. The vectorial composition of these loads or reactive powers (inductive and capacitive) leads to a resulting load or reactive power less than that existing before the installation of capacitors. To simplify, the inductive loads (motor, transformer, etc...) consume reactive energy while the capacitors (capacitative loads) produce reactive energy.

cos ϕ ≈ 0.7 (tg ϕ ≈ 1.02)

Active energy (kWh) Reactive energy (kVArh)

cos ϕ ≈ 1 (tg ϕ ≈ 0)

Active energy (kWh)

Saving

ELECTRICAL MAINS

HV AND LV RANGES Turnkey compensation cabinets

1 2

1 - Alpibloc ixed capacitor banks with incorporated circuit breaker (localised solution) 2 - Alpimatic automatic capacitor banks (centralised solution) 3 - Alpimatic automatic capacitor banks with self anti-harmonics (centralised solution with harmonics) 4 - High-voltage capacitor banks

4. PRODUCT OVERVIEW

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Eficient energy distribution

UPS â&#x20AC;&#x201C; Uninterruptible power supply

PROTECTION OF HIGH ENERGY EFFICIENCY SYSTEMS UPS systems condition power and store energy for critical mission structures (data centres, transmission centres and hospitals) and protect them against luctuations of voltage or frequency. They also supply autonomy or a temporary power supply to deal with any blackouts. A UPS requires energy to provide these functions. The eficiency of a UPS is measured as output power divided by input power, where the UPS consumes part of this power (self-consumption). The amount of energy consumed by the UPS represents the energy lost or ineficiency. UPS ineficiency can cause losses of up to 20% of the incoming mains power: a signiicant value which data centre operators, public utility companies and energy managers must always consider. The ineficiency of the UPS, which is necessary to protect critical mission loads of even medium size, can be quantiied in an annual waste of hundreds or even thousands of kilowatt hours.

THE ADVANTAGES OF LEGRAND UPS By installing high eficiency static continuity units (UPS) you can considerably reduce energy consumption with a consequent cost saving in the bill; a saving which increases considerably in the case of industry, hospitals and other structures which have high and constant energy consumption. Legrand UPS, which have always featured high performance but low power consumption (high energy eficiency), represent an excellent investment. In particular, the modular three-phase range (Trimod HE and Archimod HE) which, thanks to its high eficiency, allows you to obtain a considerable saving in life time costs.

L a a w w dates back more than 20 years, when the irst modular UPS was launched in 1993. From then on the continuous irmware development and the constant research activity in the ield of power and control hardware components mean that the reliability and system quality of Legrand UPS has improved continuously. On-going research, coupled with modern production methods, has allowed Legrand to propose a cutting-edge product with performance at the top of the market: eficiency certiied up to 96% and unity power factor.

kVA = kW POWER FACTOR

Trimod HE and Archimod HE, with high-yield components and structures which optimise space, are the ideal solution for advanced energy management and cost containment.

MORE POWER The unity power factor of the Trimod HE and Archimod HE UPS guarantees maximum real power; 11% more than competing products with power factor 0.9 and 25% more than products with power factor 0.8.

% eficiency

MORE EFFICIENCY

96%

Among the highest market values which guarantee up to 4% more eficiency with respect to the minimum values required by the European Code of Conduct.

% load TRIMOD HE and ARCHIMOD HE Code of Conduct (for 40 < 200 kVA UPS) Code of Conduct (for 20 < 40 kVA UPS)

4. PRODUCT OVERVIEW

Eficient energy data centre

Cold corridor page 37

Air conditioning page 43

Metering with smart PDU page 46

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Eficient energy data centre

Overview Data centres consume a great deal of energy: 322 TWh in 2012, i.e. 1.8% of global energy consumption*.

ENERGY-INTENSIVE BUILDINGS For example: ■

■

a typical data centre consumes 10 to 100 times more energy per m² than a standard ofice building the consumption of a 10,000 m² data centre is the same as that of a town with 50,000 inhabitants over 10 years, the operating cost of a data centre is the same as its installation cost the electricity bill represents 10 to 15% of the operating cost

AN INCREASINGLY LARGE ECOLOGICAL FOOTPRINT The ecological footprint of data centres is constantly increasing: it is estimated that in the next 10 years there will be 30 times more data (90% of which will not be structured) and signiicantly more servers. At this rate, energy requirements could double within ive years. Reducing the carbon footprint (one of the main concerns of stakeholders) and improving the energy eficiency of data centres is therefore vital in order to reduce consumption and costs.

The building infrastructure currently represents close to half of the total energy consumption.

IT EQUIPMENT

52 % BUILDING INFRASTRUCTURE

48 % Cooling 32 % Peripherals (lighting, CCTV, heating generator) 6% UPS, energy conversion and PDU 10 %

* Source: DatacenterDynamics

4. PRODUCT OVERVIEW

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Eficient energy data centre

Legrand’s response OBJECTIVE: REDUCE THE PUE The PUE (Power Usage Effectiveness) is an indicator for measuring the energy eficiency of a data centre by working out the ratio of the total consumption of the data centre to that of the computer and telecoms (IT) equipment. The Green Grid, an international consortium set up to improve the eficiency of data centre resources, has deined several PUE levels:

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LEVEL 0 PUE

This measurement compares the amount of electricity entering the data centre with the amount of power consumed by the IT equipment. The new deinition speciies that the measurements must be taken during consumption peaks, and behind the UPS. Even if the measurements are increased to regular intervals, an energy eficiency ratio at maximum load is obtained, which is not very representative of the activity of the company.

NOTE The Green Grid and ISO/IEC are proposing four additional indicators to reine the assessment of the ecological footprint of a data centre. ■

■ ■

Basic PUE (level 1)

This measurement includes the level 0 requirements and stipulates conversion of all measurements into kilowatt-hour (kWh). It is more precise than level 0 because it also includes energy sources other than mains electricity. PUE1 is calculated over a 12-month period.

■

■ ■

Intermediate PUE (level 2)

This measurement includes the level 1 requirements. However, the IT consumption is measured at the PDUs (Power Distribution Units). A clear distinction is therefore made between the infrastructure and the IT equipment and it is easier to measure a pPUE (partial PUE).

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For further information, go to www.thegreengrid.org

Advanced PUE (level 3)

This measurement includes the level 2 requirements. It reines them by requiring the IT consumption to be measured at device level.

THREE POSSIBLE ACTIONS TO REDUCE THE PUE: - optimising the cooling solutions - reducing power losses - making use of performance indicators

Green Energy Coeficient (GEC): this quantiies the proportion of renewable energy consumed by a data centre Energy Reuse Factor (ERF): this measures the amount of energy used outside the data centre Carbon Usage Effectiveness (CUE): this extrapolates a greenhouse gas emission volume based on the electricity consumption of the data centre Water Usage Effectiveness (WUE): this measures the amount of water used in the data centre

A data centre with optimum eficiency will be PUE1, whereas the average global PUE of a data centre is between 1.8 and 1.89 (source: Uptime Institute survey 2012). Reducing this is therefore a priority in order to ensure that the infrastructure provides ever-higher performance.

1.8<

<1.89

AVERAGAE GLOBAL PUE

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Eficient energy data centre

Optimise the cooling solution Cooling systems are the main source of consumption in a data centre. To reduce energy consumption, the consumption by the server cooling systems must all be reduced. This involves: ■ ■

an optimised design of the white room selecting the right cooling solutions

To select the most appropriate solutions, it is necessary, irst of all, to know the class of data centre concerned. These solutions will then facilitate the implementation of a global cooling system called free cooling. In the context of a free cooling installation, several Legrand cooling solutions for the secondary circuit can be used to optimise the air conditioning.

ISOLATION OF THE HOT AIR FROM THE COLD AIR Hot corridor/cold corridor solutions These consist of separating hot and cold corridors for easier, optimised air distribution. Cold corridor solutions In addition to simply separating the air lows by creating dedicated corridors, the cold corridor enables the corridors to be contained for optimised cooling. The hot air and cold air are separated when the room is designed, using roofs, panels and doors (at the entrance and exit). This solution effectively reduces the energy consumption of the air conditioning units (visible reduction via the air conditioning unit consumption reports). The cold corridor provides an average of 30% energy savings.

They comply with two major thermodynamic principles: ■

■

Isolation of the hot air from the cold air This enables optimum management of air leaks and increases the cooling capacity Optimisation of the cold air circuit Objective: minimise the air friction losses

THE LEGRAND ADVANTAGE Thanks to its worldwide network of partners, Legrand supports you during the decisive stages of your project: ■

selection of the right solutions when deining the white room’s design

■

sizing of the cooling solution in relation to the power of the servers

4. PRODUCT OVERVIEW

OPTIMISATION OF THE COLD AIR CIRCUIT Cooling the room

This is done using CRAC (Computer Room Air Conditioning) units. Traditionally, the cold air is sent into the false loor at a slightly higher pressure and exits via perforated tiles in the Cold Corridor. The hot air is evacuated in the hot corridor and reprocessed by the unit. Principle of the room cooling system

ÂŠ

Cold Corridor AN AVERAGE OF 30% ENERGY SAVINGS

Free cooling

Standards

Free cooling consists of cooling a building by ventilation using the free energy of the external air or water when it is at a temperature below the required internal conditions. This system also reduces the need to use cooling units, which leads to a reduction in energy bills and improved eficiency of the whole installation (PUE and carbon footprint).

The class (A1 to A4) of a data centre, deined by the ASHRAE standard, is assigned according to the equipment in the data centre and its speciic environmental features.

Free cooling includes overall management solutions via the primary cooling circuit and targeted management solutions in the white room via the secondary cooling circuit. Air

Piping

Ambient air

Equipment (ASHRAE - 2011 Thermal Guidelines) 2011 classes

2008 classes

Applications

DATA CENTRES

IT Equipment

Environmental control

Enterprise servers, storage products

Tightly controlled

Volume servers, storage products, personal computers, workstations

Some control

Class A1: typically a data centre with tightly controlled environmental parameters (dew point, temperature and relative humidity) and mission critical operations. Classes A2/A3/A4: typically an information technology space or ofice or laboratory environment with some control of environmental parameters (dew point, temperature and relative humidity).

Secondary cooling circuit

Primary cooling circuit

OPTIMISATION OF THE COLD AIR CIRCUIT (continued) Row-based cooling solutions

These cooling solutions integrated in the corridor (in or between the cabinets) reduce the complexity of the installation and provide cooling as close as possible to the server. Particularly suitable for high density solutions or rooms without false loors, these solutions optimise the air low so that it is as short as possible, which results in lower losses.

The H2O system

Commonly called a chilled water system, it uses water for exchanging thermal energy between the secondary system and the primary outdoor system. When the system is running outside, a water/glycol mixture is used as a coolant to prevent freezing. The system can be designed as a single loop system avoiding an extra heat exchanger and therefore maximizing the capability of free cooling. The water infrastructure is commonly managed as a circuit for a whole room or is part of a complete building.

Example of H20 in Cold corridor

The Direct Expansion (DX) system

In this direct expansion system, the coolant in the refrigerating machine circulates in the exchangers in contact with the internal air (evaporator) and the external air (air condenser). This is a closed circuit in which each indoor unit is associated with one outdoor unit.

Example of DX in closed loop

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Eficient energy data centre

Air conditioning H20 installation diagram

Outdoor unit

Indoor unit

IT Rack

H2O

Piping

Condensate drain

DX installation diagram

Outdoor unit Indoor unit

IT Rack

Piping Electrical cabling (only DX) Condensate drain

4. PRODUCT OVERVIEW

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Eficient energy data centre | Air conditioning

Reduce power losses The objective is to reduce power losses so as to increase the eficiency of the electrical infrastructure. Power losses connected with energy conversion and UPS currently represent around 10% of the total energy consumption of a data centre, where the cooling alone represents 32%. Given the efforts made with regard to cooling, particularly through designs enabling the use of free cooling, these power losses will account for a large part of the data centre’s energy bill.

In order to increase the eficiency of the electrical infrastructure, it is therefore necessary to look into solutions that will reduce this percentage, in particular via the power supply and distribution systems. Various products, providing high performance installations, improve the quality of the energy and limit power losses, thus reducing the environmental footprint:

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Uninterruptible Power Supplies (UPS)

These enable the power demand to be as close as possible to the actual requirements. ■

Green T.HE HV/LV transformers

(Green Transformer High Eficiency) These high eficiency transformers ensure effective energy eficiency. ■

PROJECTION OF LOSSES BY IMPROVING THE PUE (POWER USAGE EFFECTIVENESS)

UPSs, energy conversion and PDUs 20.8 % Devices (lighting, CCTV, heating generator set)

Capacitor banks

12.5 %

These optimise the reactive power and reduce the apparent power of the installation.

Cooling

PUE 1.92

66.7 %

UPSs, energy conversion and PDUs 39 % Devices (lighting, CCTV, heating generator set) 28 %

Cooling 33 %

PUE 1.30

Standards Various normative documents and certiications guarantee the quality of the supply and distribution systems, thus limiting power losses.

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Standard EN 62040 and European Code of

Standard EN 50588-1

Conduct on the eficiency and quality of UPS

It deines much lower levels of no-load/on load transformer losses and is easier to read:

For Uninterruptible Power Supply (UPS) systems.

It also establishes noise limits to ensure a level of comfort and limit all disturbance inside the building. ■

Standards IEC 60831-1 and 60831-2

These standards establish the electrical features and the mechanical impact tests for the capacitors. ■

Standards IEC CEI 61439-1 and IEC CEI 61439-2

For low-voltage switchgear and control gear assemblies.

No-Load Losses

On Load Losses

According to EN 50588-1

BO CO Losses that are still present when the transformer is connected to the net (8760 hours per year) and are independent of the charge

Bk Losses that are quadratic with the charge (Pk I2)

NOTE The reduction of power losses must be considered on a daily basis, via careful management of the energy requirements. Those responsible for operating a data centre must therefore pay attention to the low and quality of the incoming energy, in order to adapt the power demand to the actual requirements of the data centre and ensure optimum use of the power received. As the various power devices operate eficiently at low load conditions (a transformer used at 10% of its capacity is three times less eficient than at 60% of its capacity, likewise for inverters and air conditioning units), their energy management will be optimised and power losses limited.

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Eficient energy data centre | Environmental sensor

Basic vs. Intelligent PDUs MAJOR CHALLENGES NEARLY ALL DATA CENTRES NOW FACE The single most important objective of the data centre is to ensure business continuity. The rack PDU helps to do this by delivering stable, reliable power to all devices – servers, storage and networking equipment – plugged into it. However, some of the other major challenges faced by data centres must be considered. ■ ■ ■ ■ ■ ■

Power capacity management and provisioning Energy management Environment management Physical and network security Computing capacity demand Asset and change management

MANAGING DATA CENTRE ENVIRONMENTS Intelligent PDUs power plug-and-play environmental sensors that help data centres make better use of cooling resources. ■

Environmental monitoring sensors for temperature, humidity, airlow and air pressure, give you the conidence to raise ambient temperatures and adjust fan speeds in CRAHs and CRACs.

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Sensors allow you to optimise your data centre ecosystem to ensure that you are meeting guidelines and set points, reducing operational costs, and improving your PUE.

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Sensor data viewed from DCIM Monitoring Software allows you to see temperature in real-time across an entire data centre or several data centres.

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Environmental sensor data can also help you to discover and reclaim unused data centre capacity and defer capital investments in equipment and facilities.

4. PRODUCT OVERVIEW

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Eficient energy data centre

Environmental sensor MONITOR YOUR DATA CENTRE WITH ENVIRONMENTAL MONITORING SOLUTIONS Raritan environmental solutions feature sensors for monitoring temperature, humidity, airlow, air pressure, water/leaks, contact closures, motion around a cabinet and vibration. Environment data is instantly sent to Power IQ® DCIM monitoring software to provide a complete picture of data centre conditions at the rack, aisle and facility level while alerting operators to risks or potential threats in real-time and revealing trends over time.

The sensors are deployed as plug-and-play options for the PX intelligent rack PDU series, EMX rack controllers, PX inline meters, rack transfer switches and branch circuit monitors. Raritan’s environmental sensors make it easy to identify hot spots, cool equipment, prevent downtime and maintain facility security.

WHY ARE ENVIRONMENT SENSORS USED IN ALL MODERN DATA CENTRES? Environmental sensors are an easy to install, cost-effective way to reduce energy costs, improve reliability and increase capacity for future data centre growth. By using environmental sensors you can optimise your data centre ecosystem to ensure that you are meeting equipment guidelines, reducing operational costs, deferring capital investments, and improving your PUE. The major energy savings have already been made by increasing server inlet temperatures from 18°C to 25°C. This has resulted in a dramatic reduction in PUE, the consequence of this action is a higher risk environment within the whole space which can be mitigated through granular monitoring and alarming of environmental factors. 48

SENSORS IN YOUR DATA CENTRE

Vibration The DX-VBR detects vibrations, such as from earthquakes or damaged fans, along three axes (x, y, z).

Rack inlet temperature and humidity The DPX2-T3H1 strings together 3 sensor heads, making it easy to mount them at the bottom, middle, and top of the cool air inlet side as per ASHRAE1 guidelines.

Temperature The DPX3-T1H1 can be placed at the front or rear of the rack to monitor cool air entering and/or hot air being expelled, and ensure proper containment.2

Airlow The DPX-AF1 can meter airlow in plenum space such as under a raised loor, or just above the perforated tiles.

Data Centre Containment Curtain Webcam

Proximity The DX-PIR detects motion around a cabinet.

Differential air pressure The DPX-T1DP1 meters differential air pressure above and below a raised loor, or between hot aisles and cold aisles to prevent thermal leaks.

Water/leak The DPX-WSF-KIT, DPX-WSC-35-KIT, and DPX-WSC-70-KIT sensors monitor leaks on the loor, around an area, on liquid cooled racks, and can detect condensation.

Mini temperature The DPX-T1-MINI is a single temperature sensor designed to plug directly into a PX intelligent rack PDUâ&#x20AC;&#x2122;s RJ-12 port. Contact closure The DPX-CC2-TR dual contact closure is used with third-party sensors such as smoke detectors, magnetic door locks, or to trigger webcams whenever a cabinet door is opened. DX-PD2C5 has active dry contacts with 12 V power to support door locks and contact closures for third-party sensors.

1 : The American Society of Heating, Refrigerating and Air-Conditioning Engineers (ASHRAE) recommends measuring the cool air entering IT equipment near the bottom, in the middle, and near the top of each IT rack. 2 : Additional temperature and humidity sensor options are available.

4. PRODUCT OVERVIEW

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Eficient energy data centre

PX intelligent rack PDUs RACK POWER DISTRIBUTION UNITS FOR YOUR DATA CENTRE Raritan’s PX intelligent rack PDU series offers more than just power distribution - it’s a launch pad for real-time remote power monitoring, environmental sensors, data centre infrastructure management and so much more. The PX series offers hundreds of models to power all your data centre applications, including models with outlet switching, individual outlet metering, high power for blade servers and high density applications, and 400 V three-phase power distribution. Raritan offers a variety of intelligent rack power distribution models that satisfy all of your metering requirements, or can engineer PDUs to meet your unique application.

INDUSTRY LEADING INNOVATION Soaring energy prices, greater competition in the marketplace and global concerns over climate change are forcing companies to reconsider how they utilise power in the most valuable and energy intensive resource they own – the data centre. It is why data centres are now so focused on cutting operational costs by improving eficiencies and making optimal use of energy, space and cooling.

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DCIM MONITORING

Power IQ DCIM monitoring software automatically gathers power, energy and environmental data from your intelligent PDUs and connected devices to help maintain uptime, improve capacity planning and support energy eficiency initiatives. With Raritan’s intelligent rack concept you have one-click access to rack power, cooling, airlow, events and much more. Data centre health maps, power analytics, cooling charts and reports alert you to potential trouble and help you to understand real-time power load, trends and capacity at the data centre, room, rack or customer level. DCIM puts the most powerful information you need to manage your data centre effectively, right at your ingertips. ®

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KWH METERING ACCURANCY

Accurate kWh metering allows you to measure actual energy usage for accurate customer or department charge-back billing. The data can be used to encourage energy eficient behaviour among users, establish power consumption baselines and analyse the effect of eficiency initiatives.

FOR DENSE, HIGH POWER RACKS Whether you operate a large, medium or small data centre, it may be time for you to consider deploying high power to at least some of your racks. Good candidates are racks that will be packed with 1U servers, network switches, blade servers, network storage devices and other high density applications. Consider how Raritan’s three phase, high voltage rack PDUs can increase energy savings and increase capacity:

55 kW ■

400 V THREE-PHASE MODELS

We offer a broad range of 400 V three-phase high power models that support up to 55 kW per rack PDU. Running higher voltages at lower currents means smaller and fewer cables, which use less copper, weigh less, occupy less space and cost less.

Endorser of the EU Code of Conduct on Data Centre Energy Eficiency Formulated by the EU’s Joint Research Centre, the Code is a measured response to the energy challenges the EU faces. Its aim is to encourage companies with data centres to reduce energy consumption while ensuring business objectives continue to be met. As an endorser, Raritan has pledged to implement the Code’s ethos through devising products and services that help organisations to bring their data centres into line with its best practice recommendations.

4. PRODUCT OVERVIEW

Active energy management

Energy management: measure, report status, command and display data on site or remotely page 53

Measure of the energy integrated to power devices or with measuring central units

Lighting management distribution and lighting controls page 56

HVAC control page 69

page 54

Time switches page 71

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Active energy management

Measure, report status and command MEASURE, REPORT STATUS AND COMMAND The Legrand measurement and supervision system has been developed with the aim of managing energy consumption inside the building, guaranteeing reliability and continuity of service, for maximum system eficiency.

SUPERVISION Supervision is a computerised control and monitoring technique for processes. In the measurement ield, it is used as an umbrella term for all the aforementioned functions (display, monitor, control, set parameters, program). Supervision concerns acquisition of data (measurements, alarms, status feedback, etc.) and process control (circuit breaker remote control, etc.). A supervision system helps control and optimise energy consumption at any time on the whole of the electrical network. It monitors all the equipment with respect to safety, control, speed of intervention and continuity of service. Data retrieved concerning the equipment operating status, distributed power measurements and consumption can be exploited in order to set up a technical energy management solution.

The Legrand MEASUREMENT and SUPERVISION system allows you to display all the electrical system parameters simply and immediately. AN INTUITIVE DISPLAY, ACCESSIBLE TO ALL Legrand meets its customers' needs with a graphic interface which is easy and understandable even for unqualiied people.

ALL OADS THE L g

Heatin

g itionin d n o c Air ater w m r Wa lation Venti ing Light ts Socke

APPLICATION SECTORS ■

WELCOMING ESTABLISHMENTS: hotels, holiday resorts

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WORKING ESTABLISHMENTS: banks, ofices, schools

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LOGISTIC ESTABLISHMENTS: warehouses

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INFRASTRUCTURE AND PRODUCTION ESTABLISHMENTS: hospitals, ofice buildings

4. PRODUCT OVERVIEW

Active energy management

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Energy supervision devices TRADITIONAL ■ ■

Counters Measurement units

Knowing the consumption is the irst step of energy eficiency.

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Active energy management | Energy supervision devices

Traditional measurement instruments

ENERGY METERS They measure the electricity consumed in one-phase or three-phase circuits. The main features are: ■ measurement of active and reactive energy; ■ RS485 communicating devices; ■ devices with impulse output; ■ MID homologation and certification corresponding to standard CEI EN 62053-21/23, CEI 61010-1.

MULTIFUNCTION MEASUREMENT UNITS For the measurement of: currents, voltages, active, reactive and apparent power, inside temperature and power factor. The main features are: ■ solutions for Din35 rail and 96 x 96 mm panel; ■ RS485 communicating devices; ■ Wide range of measured parameters; ■ compliance with regulations IEC 61557-12 and IEC 62053 -22/23; ■ they can be fitted with accessories such as memory, temperature and communication modules; ■ clear graphic interface.

IME marked products The Legrand Group can also offer IME products for measurement instruments. IME specialises in display and measurement instruments and is among the largest European companies in the sector. The main products which allow you to increase energy eficiency are pictured below.

4. PRODUCT OVERVIEW

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Active energy management | Lighting management distribution

Buscom trunking... a unique power and comms backbone Buscom is at the heart of Electrakâ&#x20AC;&#x2122;s lighting control solutions... distributing both power and communications within a single busbar trunking system, it provides a lexible and simple alternative to traditional wiring or prefabricated cable systems.

ENERGY SAVING As with all Electrak solutions, Buscom is a modular system designed to be quick and simple to install, reducing man hours and energy usage on site.

THE HEART OF YOUR LIGHTING CONTROL SYSTEM Installing a matrix of Buscom trunking in the ceiling void creates an accessible power and communications backbone throughout a building. The backbone can be tapped into at any point to facilitate instant connection to power and control circuits. Buscom incorporates a shielded twisted pair communications bus inside each length and tap-off, and is suitable for use with any lighting control protocol, including: KNX, LonWorks and DALI.

MODULAR. FLEXIBLE. SIMPLE. Trunking lengths simply push it together, saving time and money on installation. With cable terminations only required for power and control circuits in the feed unit, Buscom delivers a plug and play solution that allows for future lighting layout changes to be made quickly and eficiently, whilst drastically reducing the potential points of failure in comparison with traditional wiring methods.

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Active energy management | Lighting management distribution

Buscom, seamless integration with your technology of choice The Buscom system operates over a KNX backbone. This enables all control devices connected to the system to communicate with each other, and facilitates seamless interoperability with any KNX certiied product.

KNX PROTOCOL SYSTEMS KNX is the worldwide standard for all applications in home and building control, ranging from lighting and shutter control to security, HVAC, metering and energy management. With close to 300 members and approximately 7000 certiied product ranges, the KNX Association holds partnership agreements with over 30,000 installer companies in over 100 countries. All products bearing the KNX logo are certiied in order to guarantee system compatibility, interworking and interoperability and are commissioned via a single, manufacturer independent design and commissioning tool.

KNX is approved as:

European Standard (CENELEC EN 50090 and CEN EN 13321-1) • International Standard (ISO/IEC 14543-3)

ENERGY SAVING Lighting accounts for up to 40% of a commercial building’s electricity use. (Lighting Industry Federation)

Lighting controls can provide energy savings of 30% to 55%.

4. PRODUCT OVERVIEW

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Active energy management | Lighting management distribution

LB PLUS DATA for DALI distribution in industrial environments LB PLUS DATA BUSBAR FOR INDUSTRIAL LIGHTING MANAGEMENT The management of artiicial light is an essential element to ensure both better eficiency and energy savings. It is with these two objectives in mind that LB Plus Data was conceived. LB Plus Data is a lighting busbar system with an internal BUS that can be used for the management of DALI or 1-10V protocol based lighting. LB Plus is a range of busbars for lighting from 25 to 63 A. It is extremely lexible, with 10, 16 and 25 A tap-off plugs, to cater for any development. The LB Plus Data version has a BUS inside which makes the busbar the ideal solution for DALI lighting management.

The savings achievable with LB PLUS DATA ■

Lighting design: 3 areas with 18 luminaires in each, fed from a standard lighting busbar. Each luminaire is made up of 2 x 58 W luorescent tubes. Total installed power: 6.3 KW.

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Original installation: Working days per year: 240 Operating hours per day: 16 (in 2 shifts). All lights fully on: - for 8 hours per day (20 days per month, for 5 months of the year) - for 16 hours per day (20 days per month, for 7 months of the year).

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The new DALI installation: Standard lighting busbar upgraded to LB Plus Data and DALI control introduced. The area is split into 3 separate zones.

Each zone is controlled by motion sensors with dimming levels automatically adjusted, depending upon the contribution of natural daylight (daylight linking).

RESULTING ENERGY SAVINGS ■

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The loading area is only lit when used, which is for 4 hours per day (2 loading operations taking 2 hours each) The galvanic processing area is fully automated and requires no operators; this area is usually only lit for 4 hours per day (during the loading operation) The unloading area is only lit when used, which is used for 2 hours per day (4 unloading operations taking 2 an hour each).

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Active energy management

Lighting controls COMBINES ENERGY EFFICIENCY, COMFORT AND OPERATING FLEXIBILITY Did you know that lighting ranks third in the power consumption of a building? However, thanks to optimised management, you can now save up to 60% energy. Make the best use of daylight, adopt the appropriate solutions for each room and optimise the comfort of people and management lexibility; these are the challenges to be faced in the construction and management of modern buildings. For each project there are speciic lighting management solutions: through concrete examples one can ind the most suitable solution, to improve energy eficiency and optimise comfort.

SAVINGS

60%

according to EN 15193

Our vision at Legrand is to provide products and services that make buildings more energy eficient. We are committed to putting a stop to energy waste.

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Active energy management | Lighting controls

Controlling any light source, any building, any space ENERGY IS A LIMITED RESOURCE Around 20% of the world’s electricity is used for lighting. Much of it is wasted. Unoccupied ofices, factories and public spaces often remain brightly lit, squandering money and energy. It is bad for the bottom line – and the environment. Yet there is a solution.

INNOVATION AND QUALITY With our commitment to innovation, we hold a number of patents. We have a relentless focus on quality and reliability.

ANY LIGHT SOURCE, ANY BUILDING, ANY SPACE From a sports stadium to a CEO’s boardroom – we work with both private companies and public sector organisations. Our UK-based production team works to high quality standards, using advanced production techniques. We are so conident of our quality and testing regime that we offer a ive-year warranty across the CP Electronics range. Our products are backed by dedicated sales, aftersales and technical support teams: on site, on the phone and online. The 2015 Paris Agreement encouraged leaders to focus on climate change, but the reality is that wasting energy costs us all.

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Active energy management | Lighting controls

Standalone detectors A presence detector monitors the detection zone for occupancy; if a person is sensed then the detector will automatically turn the lighting on. When the area is vacated, the lighting will turn off after a preset time delay. Most of our PIR sensors and microwave sensors have a built in light level (lux) sensor which will keep the lighting off if there is enough natural light available. Controlling lighting with a presence detector can save up to 60% of lighting energy costs dependent on occupancy behaviour and the amount of natural light available.

PIR presence detectors COMPACT (PIR) PASSIVE INFRARED PRESENCE DETECTORS, CEILING MOUNTING ■ ■ ■ ■ ■ ■ ■

Switching, DALI and adjustment 0-10 V (analogue) Presence detection Switching with light level sensor Attenuation-adjustment function Scenario setting and reset Constant brightness Control up to 20 ballasts

2.8 m

High Sensitivity Low

Microwave presence detectors MICROWAVE PRESENCE DETECTOR WITH ADJUSTABLE HEAD ■ ■ ■ ■ ■ ■ ■

ON/OFF, DALI and 0-10 V versions Adjustable detection head Absence detection switching Adjustable detection sensitivity Programmable with IR remote control Integral relay to reduce parasitic power supply Photocell for brightness adjustment

2.6 m 6m

23 m

High Sensitivity Low 4. PRODUCT OVERVIEW

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Active energy management | Lighting controls

AN10® Wireless lighting control

Ballast controller ■ DALI/DSI or 1–10 V ballast attenuation or switching control. ■ Available for complete circuits or for integration in lighting devices

Input unit with changeover switch ■ Up to seven inputs without voltage to be used with switching/standard or customised push button cards. ■ Simple preset coniguration setting to select a typical scenario and up/down operation. Advanced coniguration functions for the master cancellation selection, etc. ■ Power supply: long-life internal battery or external 12 V supply

Professional switching-on remote control ■ Easy programming; recording, saving and resetting with macro.

An-10 wireless technology allows you to install a fully featured lighting control system easily and with minimal disruption. An-10 has been speciically created to allow you to embrace the advantages of wireless technology while at the same time offering all of the features and functionality demanded by modern day lighting control systems.

PIR and microwave presence detectors ■ The An-10 presence and brightness detectors can also be used to control multiple outputs in other detectors, such as the An-10 controller ballast and the Vitesse Modular modules using a wireless system.

Vitesse Modular™ switching modules ■ An-10 receiver to control the Vitesse Modular lighting connection system. ■ Simple connection design, available in switching and attenuation versions. ■ The system can be adapted easily depending on the changes of design and expansion.

RAPID - An-10 Gateway ■ A l l ows integration between the An-10 control system and RAPID (Addressable Control system).

4. PRODUCT OVERVIEW

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Active energy management | Lighting controls

Rapid - fully addressable lighting control system Attenuation / switching devices Switched, DSI / DALI or analogue transmission Switched module, DALI / DSI transmission or 8 analogue channel connection with module from 2 to 4 outputs

Modules switched, DALI / DSI transmission or with DIN rail with 5 analogue channels

DALI / DSI transmission module connection to 3 switching channels

Contact without voltage for fan coil, etc.

DIN rail module with only one switched channel

Contact without voltage for fan coil, etc.

Area controller modules Q

Network to other loors Area controller

Scenario card

User remote control

Changeover switch interface

User interfaces

-10 Wireless An-10 connection port module Area controller

9 8

Area controller

RS232

RAPID is a totally addressable solution, which can connect to the upper network and associate a state-ofthe-art technology to a modular design.

Combined with patented energy detection technology, RAPID is the complete lighting control solution.

It also has an easy to use graphic interface. It makes the most demanding lighting control and energy management applications possible, without the costs and complexity of other systems.

Addressable DALI Switched module with DIN DALI, LCM LMS rail

DALI switched and connectable module

Compact module, switched or in line, for DALI / DSI transmission

Up to 64 total addresses

Addressable, in line and compact module

Contact without voltage for fan coil, etc.

Up to 64 total addresses

Up to 30 total addresses

W Mini PIR

PIR

Mini PIR

Microwave

PIR

Presence detectors

E User reports

Connection port for open systems

Energy detection and emergency monitoring

BACNET Remote monitoring (support/maintenance outside the systems)

Ratio creation and monitoring options 4. PRODUCT OVERVIEW

1 / EBR-LCM10-10DD RAPID Lighting control module

Pluggable DALIG64 Lighting control module

■ ■ ■ ■ ■

Expandable from 8 to 12 outputs Reduced installation cost for CatA Reduced expansion cost at CatB stage Mixed dimming and volt-free output options Energy measurement

Up to 64 DALI addresses 11 ELV switch inputs IR handset and PC programmable Switching relay, ELT relay, volt-free output Compatible with DALI emergency monitoring

2 / EBR-LCM3-1DD-B

6 / EBR-DIN-DALIG64

3+1 channel LCM

Hardwired DALIG64 Module

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■ ■ ■ ■

Three addressable individually dimmable outputs Additional switched output to control non-dimming devices Switching relay, ELT relay, volt-free output 11 SELV switch inputs DALI / DSI Broadcast

3 / EBR-DIN-LCM5-5

Up to 64 DALI addresses 8 ELV switch inputs 3 volt-free relay outputs Compatible with DALI emergency monitoring

7 / EBR-MOD-DALIG

5 Channel hard wired lighting control module

Compact in-line DALI gateway module

■ ■ ■ ■

■ ■

Individual addressing of outputs Adjustable off delays and group delays Adjustable start up lighting levels Scenario control for each channel

4 / Single Channel Module available

5 / EBR-LCM-DALIG64-B

■ ■ ■

10 individually addressable channels Control and fault feedback indication per channel Auto re-addressing of failed ballasts Power for up to 4 peripherals (PIR, switch) Compatible with DALI emergency monitoring

8 / AR-DN-RS232

W / Presence detection

RS232 Module

■ ■ ■ ■

2-way gateway to third party system Communication interface for AV systems Communication via third party system protocol IR or PC programmable (dongle required)

Passive Infrared (PIR) Microwave Mini PIR DALI addressable PIRs

9 / Area controller

E / EBR-CFE

■ ■ ■ ■

Front end PC

■

3 RAPID bus networks Ethernet port – TCP/IP connectivity Time scheduled events Numerical keypad, with pass lock and 3 access levels Modular enclosure options available

■ ■ ■ ■

Reconigure and/or monitor the status of control devices Reconigure lighting groups via PC Emergency monitoring – lamp error feedback Energy measurement

Q / EBR-4SC

R / Energy measurement

■ ■

■ ■ ■

Up to 8 scenarios, plus a separate off scenario Adjustable fade rates up to 99 minutes per scenario Support for 99 individual circuits Up/down override Room divide input suitable for up to 3 interconnecting rooms

■ ■ ■

Actual energy usage data For lighting measurement Measurement grouping – lighting, LCM, area, loor Real-time reporting Web based reporting Off-line reporting

4. PRODUCT OVERVIEW

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Active energy management | Lighting controls

LCM lighting control system MAIN FEATURES:

The simple preset settings allow you to conigure and reconigure the spaces quickly and easily. Vitesse PlusTM is a seven-channel lighting control system with a difference: it has an integrated preset settings menu which makes coniguration and maintenance easier. It offers an independent solution, ideal for a wide variety of applications.

■ ■ ■ ■ ■ ■

12 outputs 7 channels Level attenuation 4 x RJ 45 inputs Scenario adjustment SELV switching inputs

SERVICE SECTOR

SALE TO RETAIL

EDUCATION

Perfect independent system solution for small and mediumsized spaces.

Vitesse Plus is an adaptive and intuitive system, ideal for commercial sites. It offers total coniguration lexibility

The gradual adjustment and the setting of scenarios make the Vitesse Plus solution perfect in education areas.

Coniguration lexibility

Detector connector

Connectors for 12 ranges of lighting devices

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Active energy management

HVAC control ZONE TEMPERATURE CONTROL: WHAT IS IT AND HOW DOES IT WORK? A modern building must have an eficient heating and air conditioning system, which guarantees energy saving, while maintaining comfort for the occupants at the same time. The Legrand zone temperature control system is a fundamental element which allows energy savings of up to 30%. By dividing the building into separately controlled zones you can: ■ manage the comfort temperature only when people are present ■ manage the artiicial heating or cooling only when it is really necessary, as a function of the contribution of direct sunlight. For example, in the cold season rooms exposed to direct sunlight require less energy for heating than those not exposed to the sun.

Up to

30%

The cost decreases By installing multi-zone systems you can obtain cost savings of up to 30% with respect to traditional systems with a single thermostat.

energy saving

High energy eficiency +

A A

The building value increases

B C

Zone temperature-control systems improve the energy classiication of buildings, increasing their commercial value.

D E F G

Low energy eficiency

4. PRODUCT OVERVIEW

THE ADVANTAGES ■

Differentiate

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the temperature in relation to the room (bedroom, living room, ofice) and thus obtain ‘ideal’ comfort on the basis of your needs and at the times you want.

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

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Improve the energy classiication of the buildings.

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Heat and cool exactly where and when needed avoiding waste and making maximum use of the sun's natural contribution.

■

Consequently reduce

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Modify all the set parameters as and when you want in a few moments with maximum simplicity and from just one point (the central unit).

the energy consumption up to 30% with respect to single-zone systems.

Without zone temperature control

With zone temperature control

The heating is working throughout the house and the rooms exposed to the sun are much hotter than the others.

The heating is working throughout the house and the temperatures are regulated on the basis of real needs and direct sunlight.

22°C

20°C

19°C

23°C 19°C 19°C

19°C

Active energy management

Time switches

Time switches allow you to activate the loads only on certain days and times preestablished and programmed by the user. This also allows a reduction of electrical consumption and a cost saving.

AlphaRex³ time switches allow even simpler management with their optimised resolution display and have the following features: ■ Standard key for a simple and quick data transfer on other circuit breakers or for backup. ■ The technology of the time switches of the AlphaRex³ series guarantees exceptional performance, ideal for daily use. ■ The ease of programming allows you to obtain maximum time precision.

Zero-crossing switching protects the contacts, extending the device's life and reduces costs and power consumption.

4. PRODUCT OVERVIEW

5 Application examples ■ Residential sector ■ Service sector

5. APPLICATION EXAMPLES

â&#x2020;&#x2019;

Residential sector

Management of temperature in a home NEED Making a temperature control system (heating and cooling) which allows users to manage and adjust different temperatures in different zones of the home (apartment, small home, large home, ...)

SOLUTION/PROJECT Thanks to the zone temperature control system, and dividing the building into separately-controlled zones, you can: manage the comfort temperature only when people are present and manage the artiicial heating or cooling only when it is really necessary, depending on the contribution of direct sunlight. For example, in the cold season rooms exposed to direct sunlight require less energy for heating than those not exposed to the sun.

System with central unit up to 4 zones The 4-zone central unit is the ideal solution for making systems in: ■

apartments

■

large and small houses, even on several loors

■

small shops and ofices

With the temperature control system you can build systems with up to 99 zones.

1st zone

2nd zone

3rd

zone

Central unit with sensor 1st sensor

2nd sensor

4th

zone

3rd sensor

Electric panel or junction box BUS to other devices

E49 power supply

4 relay actuator

BUS cable

230 Vac

ADVANTAGES / BENEFITS With zone temperature control the heating or cooling is active in the whole house and the temperatures are adjusted on the basis of real needs and direct sunlight. ■

Cost saving by installing multi-zone systems you can obtain cost savings of up to 30% with respect to traditional systems with a single thermostat.

■

Improve the energy classiication of the buildings.

■

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Heat and cool exactly where and when needed, avoiding waste and making maximum use of the sun's natural contribution.

■

Differentiate the temperature in relation to the room (bedroom, living room, ofice) and thus obtain ‘ideal’ comfort on the basis of your needs and at the times you want.

Up to

30%

Reduction in the emission of

1.461kg CO2

energy saving

Calculation made on a 100 m2 home. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

â&#x2020;&#x2019;

Service sector

Management of temperature in ofices NEED Making a temperature control system (heating and cooling) which allows management and adjustment to temperatures independently in different ofices or areas of the building.

SOLUTION / PROJECT Thanks to the â&#x20AC;&#x2DC;zone temperature controlâ&#x20AC;&#x2122; system and dividing the building into separately controlled zones, you can: manage the comfort temperature only when people are present, and manage the artiicial heating or cooling only when it is really necessary, depending on the contribution of direct sunlight. For example, in the cold season ofices exposed to direct sunlight require less energy for heating than those not exposed to the sun.

System with central unit up to 99 zones The 99-zone central unit is the ideal solution for making systems in: ■

99-zone central unit

99th zone

1st sensor

99th sensor

residential contexts in large houses, apartment buildings and large buildings

■

1st zone

the service sector in ofices, shops, shopping centres and large bank

The 99-zone central unit can be controlled and managed remotely via Internet by means of the Legrand MyHOME web portal.

Power supply BUS

to control devices

Actuator

230 Vac

ADVANTAGES / BENEFITS With zone temperature control the heating or cooling is active in the whole building and the temperatures are adjusted on the basis of real needs and direct sunlight. ■

Cost saving by installing multi-zone systems you can obtain cost savings of up to 30% with respect to traditional systems with a single thermostat.

■

Improve the energy classiication of the buildings.

■

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Heat and cool exactly where and when needed avoiding waste and making maximum use of the sun's natural contribution.

■

Differentiate the temperature in relation to the room (boardroom, ofice) and thus obtain ‘ideal’ comfort on the basis of your needs and at the times you want.

Up to

30%

Reduction in the emission of

75.760kg CO2

energy saving

Calculation performed on a 3,000 m2 building for ofice use. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

â&#x2020;&#x2019;

Service sector

Typical hotel guest room â&#x20AC;&#x201C; KNX solution NEED In a hotel room there is the need to manage everything when the customer is present: lighting, sockets, HVAC. When the customer enters the room the entrance lights are automatically turned ON and when they put the key card into the holder the HVAC and the sockets are also enabled. The customer is able to manage everything through the different central units, choosing the conditions they prefer according to their mood or needs.

other rooms Hotel Network IP

Switch

KNX/IP gateway with router

Arteor 1 way push button, white

Arteor RFID key card switch, white

Arteor German standard socket, green

Backbone TRADITIONAL CABLING

BUS/KNX Switch

KNX 640 mA Power supply

MONITORING ROOM

BMS PMS PC

OPC Server

KNX Multi-application controller

Bathroom alarm push button: sends the alarm information to the multi-application controller which sends on this information to the supervisor and enables an alarm scenario in the room

Key card switch: sends presence information to the multi-application controller activating the welcome scenarios, enabling sockets, etc.

KNX multi-application controller: manages the majority of the room functions

KNX FCU controller

5 1

6 Sockets: are

2 KNX Arteor wiring device PIR sensor: detects presence at the entrance and turns ON the lights

KNX Arteor thermostat: manages the temperature in the room

6 KNX Arteor customised glass plate with 4 buttons. It manages the different scenarios: reading, sleeping, etc.

managed by the multiapplication controller when presence is communicated via the key card holder

KNX Arteor PIR wiring device sensor

KNX Arteor 4 push button glass plate, white

KNX Arteor temperature control panel

other KNX devices in the room

KNX FCU controller

5. APPLICATION EXAMPLES

→

Service sector

KNX solution

ADVANTAGES / BENEFITS With zone temperature control the heating or cooling is active in the whole building and the temperatures are adjusted on the basis of real needs and direct sunlight. ■

Cost saving by installing multi-zone systems you can obtain cost savings of up to 30% with respect to traditional systems with a single thermostat.

■

ECO function the ECO function switches off the heating or cooling when a window is open.

■

Heat and cool exactly where and when needed avoiding waste and making maximum use of the sun's natural contribution.

■

Improve the energy classiication of the buildings.

■

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Up to

47.7%

Reduction in the emission of

82.530kg CO2

energy saving

Calculation performed for an 80 room hotel. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

→

Service sector

Toilet facilities – management of lighting and ventilation NEED ■

Automatically switching the lighting and ventilation on and off on the basis of the detection of movement.

Type of lighting ■

T5 linear luorescent lamps

Room description ■

Use of the toilet space

■

Sizes: 20 m² separate area 3 m² each toilet

■

Ceiling height: 2.50 m

■

Windows: none

SOLUTION / PROJECT ■

Passive infrared ceiling mounted sensor

■

Room controller standalone ON-OFF

Install a passive infrared ceiling sensor item in each bathroom: the sensors switch the lighting and ventilation on when the toilet is occupied and switch everything off when no movement is detected. All the sensors are connected to the standalone ON-OFF room controller item installed in the false ceiling.

INSTALLATION NOTES 1. Install the standalone ON-OFF room controller on the cable tray in the false ceiling.

2. Install passive infrared ceiling sensors in each bathroom.

Ventilation Lamps

3. The sensor has the following factory settings: delay time 15 minutes, brightness threshold 500 lux, maximum PIR sensitivity. Whenever necessary use the coniguration remote control to change the sensor parameters. NA C NC

SENSORE

ADVANTAGES / BENEFITS Automatically switch the lighting and ventilation on and off only when people are present.

â&#x2013;

Cost saving by installing technological systems or products you can obtain cost savings with respect to the use of traditional systems or products.

â&#x2013;

Up to

22.9%

Reduction in the emission of

32kg CO2

energy saving

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Calculation performed on 20 m2 toilet facilities. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

→

Service sector

Single workstation with automatic lighting management NEED ■

■ ■

Manual switching on of the lighting and automatic switching off on the basis of presence detection ON-OFF management Presence detection

Type of lighting ■

T5 linear luorescent lamps

Application description Use of the ofice activity space such as reading, writing, working at the computer, etc. Sizes: (2.50 x 2.50 m) x 4 Ceiling height: 2.50 m

SOLUTION / PROJECT The main lighting is supplied by the ceiling lamps. In this case, the desk lamps are controlled by the dual technology lush mounting sensor placed in the column at the side of the workstation and are lit manually by means of the push button on the sensor. When the desk is not occupied the lights go out automatically at the end of the delay time set on the sensor.

INSTALLATION NOTES 1. Install the lush mounting dual technology sensor in the column at the front of the desk to ensure optimum detection. 2. The sensor has the following factory settings: delay time 15 minutes, brightness threshold 300 lux, maximum PIR sensitivity and high US sensitivity. Whenever necessary use the coniguration remote control to change the sensor parameters.

Desktop lights 8.5 A max.

Sensor Circuit protection

ADVANTAGES / BENEFITS Thanks to the manual switching on of the light and the automatic switching off on the basis of presence detection, comfort, and energy and cost savings are obtained. â&#x2013;

Cost saving by installing technological systems or products you can obtain cost savings with respect to the use of traditional systems or products.

Up to

22.9%

Reduction in the emission of

320kg CO2

energy saving â&#x2013;

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Calculation performed on a 200 m2 open plan ofice. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

→

Service sector

School room with management of light and air NEED ■

Manual switching on of the lighting and automatic switching off on the basis of presence detection and the contribution of natural light.

■

Automatic management of HVAC device on the basis of presence detection.

■

Dimmer management

■

Presence detection

■

Presence of natural light

■

Ventilation system management

Type of lighting ■

T5 linear luorescent lamps with DALI ballast

Room description Use of the teaching activity space such as training, meetings, etc. Sizes: 40 m² Ceiling height: 2.50-3 m Windows along the wall

SOLUTION / PROJECT ■

Room controller standalone dimmer DALI

■

Dual technology ceiling lush mounted sensor

■

Traditional electromechanical push button.

The room controller will control two groups of lamps (one A deined master and one B deined slave) maintaining a deined brightness difference between A and B. The dual technology sensor will adjust the lighting level on the basis of the brightness level and presence and will also control the activation of the HVAC device, but only on the basis of presence. The push buttons allow the manual switching on and adjustment of two groups of lamps.

INSTALLATION NOTES

PLUG & GO coniguration mode

1. Install the room controller at the centre of the room in the false ceiling.

2. Install the dual technology sensor at the centre of the room so as to ensure an optimum detection of presence and brightness level. It can be installed lush mounted by means of springs or in a lush mounting box for concrete or plasterboard ceilings.

VMC

3. Install the push buttons at the room entrance. 4. Connect the room controller to the power supply (230 V a.c.), the sensor (by means of bus cable item at the RJ45 input), the controls (terminals DA1 and DA2) and the fans (NO/C/NC output).

5. Conigure the room controller by selecting mode

delay time 15 minutes, brightness threshold 500 lux, very high PIR sensitivity and high US sensitivity. Whenever necessary use the coniguration remote control to change the sensor parameters.

/OUT

150 m max.

6. The sensor has the following factory settings:

/OUT

x16 max. 100 m max.

1, 2 or 3 as required, by means of the selection push button.

x16 max.

230/110 V:

x 6 max.

ADVANTAGES / BENEFITS â&#x2013;

Cost saving by installing technological systems or products you can obtain cost savings with respect to the use of traditional systems or products.

â&#x2013;

Safeguard the room, thanks to the reduction of CO2 emissions in the air.

Up to

27.6%

Reduction in the emission of

65kg CO2

energy saving

Calculation performed on a 40 m2 school room. Italian conversion factor used: 0.406 kg CO2 / kWh. Calculation performed on an annual basis.

5. APPLICATION EXAMPLES

6 Reference projects ■ Service sector ■ Industry

→

Service sector

Real world results with PDUs CISCO SAVES $8.6M ANNUALLY BY DEPLOYING INTELLIGENT PDUs In 2011, when Cisco sought to reduce its energy consumption and costs, its labs were an obvious target: they accounted for 60% of the company’s total power use, yet occupied only about 10% of its real-estate space. The labs consumed more than 900MWh of power a year, had a combined annual electricity bill of more than $80M, and were the single largest source of operational greenhouse gas (GHG) emissions for the company.

The two-year initiative was completed in July 2013. Though the company saved $9million dollars total, over $8.6 million in savings alone were from intelligent PDUs deployed in all new, existing and retroit labs. One key feature that allowed the company to save big was having the ability to power off lab equipment while not in use.

EBAY’S NEW DATA CENTRES ARE TWICE AS RELIABLE AND 50% LESS EXPENSIVE TO OPERATE As one of the world’s largest Internet commerce platforms, eBay demands extreme data centre reliability; any downtime would impact transactions worth more than $2,000 a second. Thus its global data centre team must excel simultaneously in delivering uptime and lexibility, while keeping costs down – a truly complex challenge, requiring constant innovation to be successful. To enable maximum savings, eBay deployed intelligent rack PDUs that provide precise energy consumption data for every single power supply, of every single server.

This information passes upstream to eBay’s building management and asset tracking systems in real-time, achieving what Green Grid terms PUE Category 3 (or PUE3) monitoring. “[Intelligent PDUs] can provide me with the precision required to calculate my true operational costs for every server, down to the last penny,” says Dean Nelson, eBay’s Senior Director of Data Centre Strategy and Operations.

6. REFERENCE PROJECTS

→

Industry

Bticino sites supervision (Italy) Supervision and control via WEB of the signiicant energy consumptions of the sites in Italy (Energy Management System, certiicate ISO 50001).

LEGRAND TURNOVER

SITES ■

k€

mWh (eq)

CO2 (tons)

last 3yr

170

1500

1750

2017 (obj)

200

1900

2500

■ ■ ■ ■ ■ ■ ■ ■

Energy saving ISO 50001

Varese Erba Tradate Bergamo Muscoline Alessandria Ospedaletto Teramo Torre del Greco

MEASURES ■ ■ ■

Electricity Gas Water

→

Service sector

Banco di Sardegna (Sassari - Italy) The Banco di Sardegna has used a remote control and management system developed with Legrand to reduce the electrical power consumption of its branches. At present 200 branches are managed with a return on investment (ROI) of less than two years.

SUPERVISION SYSTEM

■ ■ ■ ■ ■ ■

Metering Automation Lighting control Email reporting Email alarms Geolocation

PRODUCT INSTALLATION

Power

Metering

MyHOME®

6. REFERENCE PROJECTS

FOLLOW US AT www.legrand.co.uk www.legrand.ie www.youtube.com/legrandtvuk www.voltimum.co.uk www.voltimum.ie www.twitter.com/legranduk

Head ofice (UK and Ireland): Legrand Electric Limited Great King Street North, Birmingham, B19 2LF Tel: +44 (0) 370 608 9000 Fax: +44 (0) 370 608 9004 Website: www.legrand.co.uk

In accordance with its policy of continuous improvement, the Company reserves the right to change speciications and designs without notice. All illustrations, descriptions, dimensions and weights in this catalogue are for guidance and cannot be held binding on the Company. All contents and design presentation included in this publication are ÂŠ Legrand Electric Limited. All rights reserved. 2018

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The Legrand logo is a registered trademark of the Legrand group of companies.

999531 Energy efficiency guide 11/2018